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Waste to Value

Waste to Value Waste to Value

OUR SYSTEMS

A Flexible Framework

Designed To Scale

Waste-to-Value systems are designed to scale across locations, waste streams, and operating environments.


Each project follows a consistent delivery framework, while the system itself is configured to match local waste characteristics, site conditions, and operating requirements. This approach allows projects to meet local needs while maintaining consistent standards for performance, safety, and long-term reliability.


The framework can be deployed globally without being tied to a single technology, governance structure, ownership model, or policy environment.

Why It Scales

Every community and industry faces different waste challenges, but the underlying delivery model remains consistent.


Waste-to-Value systems can be deployed at different scales, operate on or off grid, function as stand-alone facilities, or integrate into regional infrastructure. This flexibility enables deployment across a wide range of contexts, including coastal regions, agricultural areas, remote communities, and industrial zones.


Because systems are designed around local resources and operating realities, they remain viable under changing policy, infrastructure, and market conditions—supporting long-term performance and durable value creation.

Expandable By Design

Waste-to-Value systems are modular by design. Initial configurations are built to address current needs, with the ability to add capabilities over time as conditions, regulations, or priorities change.

Rather than locking projects into a fixed configuration, systems allow for selective additions that enhance performance, efficiency, or local value creation—without requiring a full system redesign or expanded footprint.


Expandable capabilities may include:

  • Power and thermal integration to support facility operations or nearby demand
  • Carbon and nutrient management systems to support emissions reduction, water quality, or material reuse
  • Agricultural or industrial integrations that make use of recovered heat, water, or materials
  • Water treatment and reuse capabilities to reduce freshwater demand and improve wastewater outcomes
  • Monitoring and control systems to support performance tracking, optimization, and long-term reliability


Each addition is evaluated based on waste streams, site conditions, and locally defined outcomes.

How It Works: System Building Blocks

Anaerobic Digestion

Thermochemical Conversion (Pyrolysis)

Anaerobic Digestion

Breaks down organics without oxygen 

Biogas → RNG • Digestate

Hydrolyzer

Thermochemical Conversion (Pyrolysis)

Anaerobic Digestion

Breaks down tough agricultural waste 

Improves processing efficiency

Thermochemical Conversion (Pyrolysis)

Thermochemical Conversion (Pyrolysis)

Thermochemical Conversion (Pyrolysis)

Converts organic waste 

Energy streams • Stable carbon products

Algae System

Activated Carbon Furnace

Thermochemical Conversion (Pyrolysis)

Algae fed by CO₂ 

Biomass products

Composter

Activated Carbon Furnace

Activated Carbon Furnace

Food and green waste 

Stabilized organic material

Activated Carbon Furnace

Activated Carbon Furnace

Activated Carbon Furnace

Activates biochar 

Filtration and purification media

CHP Unit

Material Recovery & Sorting

Thermal Storage

Uses biogas or syngas 

On-site power and heat

Thermal Storage

Material Recovery & Sorting

Thermal Storage

Stores excess heat 

Balances supply and demand

Material Recovery & Sorting

Material Recovery & Sorting

Material Recovery & Sorting

Sorts incoming waste 

Material recovery

Example Pathway: Wood Waste to Value (Pyrolysis)

This example shows how a Waste-to-Value system is configured around a specific feedstock. Wood waste is used here as a clear, well-understood example, illustrating one possible pathway using thermochemical conversion (pyrolysis). Similar configurations may also be applied to other dry biomass, contaminated organics, or biosolids where a controlled, high-temperature pathway is required.

The Journey: Wood Waste

When burned, 92–94% of this wood’s carbon goes straight into the air as CO₂, CO, and methane.

    Outputs from This Pathway

    Energy Streams

    • Syngas — used on-site for heat or power generation
    • Thermal energy — recovered for process use or local demand

    Liquid Products

    • Bio-oil — an energy-dense liquid that may be used as a fuel, blended, or further refined depending on specification
    • Wood vinegar (pyroligneous acid) — a condensate containing organic acids and compounds, used in agricultural, industrial, or specialty applications where markets exist

    Carbon Products

    • Biochar — a stable carbon material used for soil amendment or added to concrete and asphalt, depending on quality, specification, and certification.
    • Activated carbon — produced through additional activation, used for filtration, purification, and industrial applications.
    • Green coal — a solid carbon fuel derived from biomass, used as a coal substitute for industrial heat or power where specifications allow.

    System Outcomes

    • Reduced disposal volume
    • Controlled treatment of difficult or contaminated materials
    • High-temperature treatment of PFAS-containing materials, where permitted
    • Long-term carbon storage through stable carbon products
    • Configurable outputs aligned with local needs and markets

    Waste-To-Value

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